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    • 85. 发明申请
    • AIR BREAK FOR IMPROVED SILICIDE FORMATION WITH COMPOSITE CAPS
    • 用于改进硅酸盐形成与复合CAPS的空气破裂
    • US20080220604A1
    • 2008-09-11
    • US12062592
    • 2008-04-04
    • Robert J. PurtellKeith Kwong Hon Wong
    • Robert J. PurtellKeith Kwong Hon Wong
    • H01L21/3205
    • H01L21/28518H01L29/665H01L29/7833
    • Disclosed is a structure and method for tuning silicide stress and, particularly, for developing a tensile silicide region on a gate conductor of an n-FET in order to optimize n-FET performance. More particularly, a first metal layer-protective cap layer-second metal layer stack is formed on an n-FET structure. However, prior to the deposition of the second metal layer, the protective layer is exposed to air. This air break step alters the adhesion between the protective cap layer and the second metal layer and thereby, effects the stress imparted upon the first metal layer during silicide formation. The result is a more tensile silicide that is optimal for n-FET performance. Additionally, the method allows such a tensile silicide region to be formed using a relatively thin first metal layer-protective cap layer-second metal layer stack, and particularly, a relatively thin second metal layer, to minimize mechanical energy build up at the junctions between the gate conductor and the sidewall spacers to avoid silicon bridging.
    • 公开了一种用于调整硅化物应力的结构和方法,特别是用于在n-FET的栅极导体上形成拉伸硅化物区域,以优化n-FET性能。 更具体地,在n-FET结构上形成第一金属层保护盖层 - 第二金属层堆叠。 然而,在沉积第二金属层之前,保护层暴露于空气中。 这种空气破碎步骤改变了保护盖层和第二金属层之间的粘附,从而在硅化物形成期间实现施加在第一金属层上的应力。 结果是对于n-FET性能最佳的更强的硅化物。 此外,该方法允许使用相对较薄的第一金属层 - 保护层 - 第二金属层堆叠形成这种拉伸硅化物区域,特别是相对较薄的第二金属层,以最小化在 栅极导体和侧壁间隔件,以避免硅桥接。
    • 86. 发明申请
    • STRUCTURE FOR METAL CAP APPLICATIONS
    • 金属盖应用结构
    • US20080197499A1
    • 2008-08-21
    • US11675296
    • 2007-02-15
    • Chih-Chao YangDaniel C. EdelsteinKeith Kwong Hon WongHaining Yang
    • Chih-Chao YangDaniel C. EdelsteinKeith Kwong Hon WongHaining Yang
    • H01L23/48H01L21/4763
    • H01L21/7684H01L21/76826H01L21/76834H01L21/76849H01L21/76885
    • An interconnect structure is provided in which the conductive features embedded within a dielectric material are capped with a metallic capping layer, yet no metallic residue is present on the surface of the dielectric material in the final structure. The inventive interconnect structure has improved dielectric breakdown strength as compared to prior art interconnect structures. Moreover, the inventive interconnect structure has better reliability and technology extendibility for the semiconductor industry. The inventive interconnect structure includes a dielectric material having at least one metallic capped conductive feature embedded therein, wherein a top portion of said at least one metallic capped conductive feature extends above an upper surface of the dielectric material. A dielectric capping layer is located on the dielectric material and it encapsulates the top portion of said at least one metallic capped conductive feature that extends above the upper surface of dielectric material.
    • 提供了一种互连结构,其中嵌入电介质材料内的导电特征被金属覆盖层封盖,但在最终结构中绝缘材料表面上没有金属残留物。 与现有技术的互连结构相比,本发明的互连结构具有改善的介电击穿强度。 此外,本发明的互连结构对于半导体工业具有更好的可靠性和技术可扩展性。 本发明的互连结构包括具有嵌入其中的至少一个金属封盖的导电特征的电介质材料,其中所述至少一个金属封端的导电特征的顶部在电介质材料的上表面上方延伸。 电介质覆盖层位于电介质材料上,并且封装在电介质材料的上表面上方延伸的所述至少一个金属封盖导电特征的顶部。
    • 87. 发明申请
    • REVERSIBLE ELECTRIC FUSE AND ANTIFUSE STRUCTURES FOR SEMICONDUCTOR DEVICES
    • 用于半导体器件的可逆电源保险丝和抗反射结构
    • US20080157269A1
    • 2008-07-03
    • US11619264
    • 2007-01-03
    • Keith Kwong Hon WongChih-Chao YangHaining S. Yang
    • Keith Kwong Hon WongChih-Chao YangHaining S. Yang
    • H01L29/00H01L21/02
    • H01L23/5256H01L23/5252H01L28/24H01L2924/0002H01L2924/00
    • A structure and method of fabricating reversible fuse and antifuse structures for semiconductor devices is provided. In one embodiment, the method includes forming at least one line having a via opening for exposing a portion of a plurality of interconnect features; conformally depositing a first material layer over the via opening; depositing a second material layer over the first material layer, wherein the depositing overhangs a portion of the second material layer on a top portion of the via opening; and depositing a blanket layer of insulating material, where the depositing forms a plurality of fuse elements each having an airgap between the insulating material and the second material layer. The method further includes forming a plurality of electroplates in the insulator material connecting the fuse elements. In another embodiment, the method includes depositing a first and a second material layer on a semiconductor substrate, wherein the second material layer having a higher electrical conductivity than the first material layer; selectively etching the first and second material layer to create at least one constricted region to facilitate electromigration of the second material; wherein the electromigration creates a plurality of micro voids; and forming a plurality of electrical contacts on the second material layer.
    • 提供一种用于制造用于半导体器件的可逆熔丝和反熔丝结构的结构和方法。 在一个实施例中,该方法包括形成至少一条线,其具有用于暴露多个互连特征的一部分的通孔; 在通孔开口上共形沉积第一材料层; 在所述第一材料层上沉积第二材料层,其中所述沉积在所述通孔开口的顶部部分上突出所述第二材料层的一部分; 以及沉积绝缘材料的覆盖层,其中所述沉积形成多个熔丝元件,每个熔丝元件在所述绝缘材料和所述第二材料层之间具有气隙。 该方法还包括在连接熔丝元件的绝缘体材料中形成多个电镀层。 在另一个实施例中,该方法包括在半导体衬底上沉积第一和第二材料层,其中第二材料层具有比第一材料层更高的导电性; 选择性地蚀刻第一和第二材料层以产生至少一个收缩区域以促进第二材料的电迁移; 其中所述电迁移产生多个微空隙; 以及在所述第二材料层上形成多个电接触。